change 3jets to jets

1 files changed, 2 insertions, 2 deletions

diff --git a/fanduct.scad b/fanduct.scad
index 2bc5623..efc6a19 100644
--- a/fanduct.scad
+++ b/fanduct.scad
@@ -1,70 +1,70 @@
 use <snapper.scad>;
 extrusion_width=.5; layer_height=.2;		// print parameters
 
 epsilon=.005;		// for finer cuts
 
-type="simple"; 	// circular|3jets
+type="jets"; 		// jets|circular|simple
 ductshape="square"; 	// square|round
 dual=true;		// dual or single
 
 nozzles_apart = 18;		// distance between nozzles for dual hotend
 space_behind_nozzle = 10;	// space behind the nozzle where we're allowed to go
 				// without the fear of hitting carriage
 
 inlet_w = 12.5;		// inlet width
 inlet_h = 17;		// inlet height
 inlet_short_l = 7;	// inlet length of protrusion (or depth of intrusion:))
 inlet_away = 15;	// how far away inlet is
 
 inlet_long_l = inlet_short_l+inlet_h;
 function hypothenuse(a,b) = sqrt(pow(a,2)+pow(b,2));
 
 silicone_shell = 2;
 heater_clearance = dual
        ? max(20,15.5) - 4.5 + silicone_shell
        : max(
 	hypothenuse(16/2     +silicone_shell, 20-4.5 +silicone_shell),	// E3D v6
 	hypothenuse(11.5-4.5 +silicone_shell, 15.5   +silicone_shell)	// E3D volcano
        );
 
 fanduct_elevation = 3;							// fanduct elevation above nozzle tip
 fanduct_blowtarget = -2;						// what to blow at
 fanduct_h = 6;								// inner height of the duct
 fanduct_w = 7;								// inner width of the duct
 fanduct_shell=1.2;							// shell thickness
 fanduct_ir = heater_clearance+5;					// inner radius
 
 jet_angle = 60-2;		// angular width of the jet
 
 hotend_clearance = heater_clearance;
 
 snapper_d = 8; snapper_overlap=0.2;	// snip snap
 
 draft=true;
 smooth_f = draft? 30 : 120;
 
 to_midduct = fanduct_ir+fanduct_shell+fanduct_w/2;
 dual_spots = [ [+space_behind_nozzle, -(to_midduct+nozzles_apart/2)],
 	       [-         to_midduct, -(to_midduct+nozzles_apart/2)],
 	       [-         to_midduct, 0] ];
 
 module fanduct(type=type,ductshape=ductshape,dual=dual) {
  //	***	duct is all around!
 
  module duct(what) {
   module ductshape(what,sh,sv,r) {
    smax = max(sh,sv);
    translate([what=="in"?0:fanduct_shell,what=="in"?0:fanduct_shell])
    if(ductshape=="round") {
     translate([sh/2+r,sv/2])
     scale([sh/smax,sv/smax])
     circle(d=smax,$fn=4*smax);
    }else if(ductshape=="square") {
     translate([r,0])
     if(what=="in")
      square([sh,sv]);
     else if(what=="out") union() {
      square([sh,sv/2]);
      translate([sh/2,sv/2])
      scale([sh/smax,sv/smax])
      circle(d=smax,$fn=4*smax);
@@ -327,129 +327,129 @@ module fanduct(type=type,ductshape=ductshape,dual=dual) {
   module dual_jets(what=what) {
    od=fanduct_h*2/3+fanduct_shell;
    md=fanduct_ir+fanduct_shell+fanduct_w/2;
    jww = 2*md*sin(jet_angle/2);
    difference() {
     for(my=[0,1]) mirror([0,my,0])
     translate([0,nozzles_apart/2,0])
     for(a=[45,135]) rotate([0,0,a])
     if(what=="in") {
      hull() {
       intersection() {
        translate([md-fanduct_w/2,-jww/2,0])
        cube(size=[fanduct_shell+fanduct_w/2,jww,od]);
        rotate([0,0,-a]) translate([0,-nozzles_apart/2,0]) duct(what=what);
       } // intersection
       translate([0,0,-fanduct_elevation]) sphere(r=.5);
      } // hull
     }else if(what=="out") {
      hull() {
       intersection() {
        translate([md-fanduct_w/2,-jww/2+fanduct_shell,fanduct_shell])
        cube(size=[fanduct_w/2,jww-2*fanduct_shell,od-2*fanduct_shell]);
        rotate([0,0,-a]) translate([0,-nozzles_apart/2,0]) duct(what=what);
       } // intersection
       translate([0,0,-fanduct_elevation]) sphere(r=.5);
      } // hull
     } // what=="out"
     if(what=="in") {
      translate([0,0,-fanduct_elevation/2-1+epsilon])
      cube(size=[2*(fanduct_ir+2*fanduct_shell+fanduct_w+1),nozzles_apart+2*(fanduct_ir+2*fanduct_shell+fanduct_w+1),fanduct_elevation+2],center=true);
      for(my=[0,1]) mirror([0,my,0])
       translate([0,nozzles_apart/2,-hotend_clearance])
       cylinder(r1=hotend_clearance*2,r2=0,h=hotend_clearance*2,$fn=4);
     }
    } // difference
   }
 
   module dual_simple(what=what) {
    for(my=[0:1]) mirror([0,my,0]) if(what=="in") {
     difference() {
      hull() {
       translate([0,nozzles_apart/2+fanduct_ir+fanduct_shell+fanduct_w/2,0])
       cylinder(d=fanduct_w+2*fanduct_shell,h=fanduct_h*2/3+2*fanduct_shell);
       translate([0,nozzles_apart/2,-fanduct_elevation+fanduct_blowtarget])
       rotate([0,90,0]) cylinder(r=.5,h=fanduct_w*2,center=true);
      }
      rr = 2*(fanduct_ir+fanduct_shell*2+fanduct_w+2);
      translate([-rr/2,0,0]) mirror([0,0,1]) cube(size=[rr,rr,rr]);
     }
    }else if(what=="out") {
     hull() {
      translate([0,nozzles_apart/2+fanduct_ir+fanduct_shell+fanduct_w/2,fanduct_shell])
      cylinder(d=fanduct_w,h=fanduct_h*2/3);
      translate([0,nozzles_apart/2,-fanduct_elevation+fanduct_blowtarget])
      rotate([0,90,0]) cylinder(d=.5,h=fanduct_w*2,center=true);
     }
    }
   }
 
   if(dual) {
    if(type=="simple") dual_simple(what);
    else if(type=="jets") dual_jets(what);
    else dual(what);
   }else if(type=="circular") circus(what);
-  else if(type=="3jets") jets(what);
+  else if(type=="jets") jets(what);
  }
 
  //	***	air intake
  module intake(what) {
   module placeit() {
    translate([-fanduct_ir-2*fanduct_shell-fanduct_w-inlet_away,0,fanduct_shell])
    rotate([0,-90,0])
    children();
   }
   if(what=="in") {
    placeit() translate([0,-inlet_w/2,0]) {
     difference() {
      cube(size=[inlet_h,inlet_w,inlet_long_l+fanduct_shell]); translate([inlet_h+fanduct_shell,0,inlet_long_l+fanduct_shell])
      rotate([-90,0,0])
      translate([0,0,-1])
      cylinder(r=inlet_h,h=inlet_w+2*fanduct_shell+2,$fn=inlet_h*4);
     }
     // supports
     for(i=[-1,0,1])
      translate([-fanduct_shell,
       (i+1)*(inlet_w-extrusion_width)/2,
      -inlet_away-fanduct_w/2])
      cube(size=[fanduct_shell+1,
       extrusion_width,
       inlet_long_l+fanduct_shell+inlet_away+fanduct_w/2]);
    }
    hull() {
     placeit() translate([-fanduct_shell,-inlet_w/2-fanduct_shell,0])
     cube(size=[inlet_h+2*fanduct_shell,inlet_w+2*fanduct_shell,fanduct_shell]);
     translate([-fanduct_ir-fanduct_shell-fanduct_w/2,0,0])
     translate([0,-inlet_w/2-fanduct_shell/2,0])
     cube(size=[1,inlet_w+fanduct_shell,fanduct_shell*2+fanduct_h]);
    }
   }else if(what=="out") {
    placeit() translate([fanduct_shell,-inlet_w/2+fanduct_shell,0])
    cube(size=[inlet_h-2*fanduct_shell,inlet_w-2*fanduct_shell,inlet_long_l+fanduct_shell+1]);
    hull() {
     placeit() translate([fanduct_shell,-inlet_w/2+fanduct_shell,0])
     cube(size=[inlet_h-2*fanduct_shell,inlet_w-2*fanduct_shell,fanduct_shell]);
     translate([-fanduct_ir-fanduct_shell-fanduct_w/2,0,fanduct_shell])
     translate([0,-inlet_w/2+fanduct_shell,0])
     cube(size=[1,inlet_w-2*fanduct_shell,fanduct_h]);
    }
   }
  }
 
  //	***	DUCT TAILS!!! WOO-OO! (every day they're out there making duct tails…)
  module tails(what) {
   if(dual && type=="simple") {
    // XXX: not sure if it will ever be
   }else{
    if(what=="in") {
     for(mx=[0,1]) mirror([mx,0,0])
     translate([fanduct_ir+fanduct_shell+fanduct_w/2,0,fanduct_shell+fanduct_h/2])
     rotate([90,0,90])
     translate([0,0,-snapper_d/2])
     snapper(d=snapper_d,o=snapper_overlap,side=0,l=fanduct_h*3/2+fanduct_shell);
    }
   }
  }
 
  module parts(what) {
   union() {
    duct(what);